1 Lecture 1: Introduction to Thermodynamics 2 Supplemental Video: Sodium Acetate Demo 3 Lecture 2: Scope and Use of Thermodynamics 4 Lecture 3: Process Variables and the First Law 5 Lecture 4: Heat Engines and Energy Conversion Efficiency 6 Lecture 5: Second Law and Entropy Maximization 7 Lecture 6: Thermodynamic Potentials 8 Lecture 7: Ideal Gas Processes 9 Lecture 8: Mathematical Implications of Equilibrium and Spontaneous Processes 10 Lecture 9: Case Studies - Specific Heats and Phase Transformations 11 Lecture 10: Introduction to Unary Phase Transformations 12 Lecture 11: Phase Coexistence in Unary Systems 13 Supplemental Video: The Three Dees of Thermodynamics 14 Lecture 12: Case Studies - Saturation Vapor Pressure 15 Lecture 13: Introduction to Ideal (Gas) Mixtures 16 Lecture 14: Reacting Gas Mixtures at Equilibrium 17 Lecture 15: Introduction to Solutions, General Case 18 Supplemental Video: The Lever Rule 19 Lecture 16: Partial Molar Properties 20 Lecture 17: Solution Models - Ideal, Dilute, and Regular 21 Lecture 18: Case Study in Reacting Gas Mixtures - Introducing the Nernst Equation 22 Lecture 19: Regular Solution Models and Stability 23 Lecture 20: Introduction to Binary Phase Diagrams 24 Lecture 21: Phase Coexistence and Separation 25 Lecture 22: Free Energy-Composition Diagrams, General Case 26 Lecture 23: Building Binary Phase Diagrams, Part I 27 Supplemental Video: Gallium-Indium Eutectic Demo 28 Lecture 24: Building Binary Phase Diagrams, Part II 29 Lecture 25: Building Binary Phase Diagrams, Part III 30 Lecture 26: CALPHAD - Case Studies and Guest Lecture 31 Lecture 27: Introduction to Statistical Thermodynamics 32 Lecture 28: Boltzmann Hypothesis 33 Lecture 29: Boltzmann Distribution 34 Lecture 30: Intermediate Phases and Reactions 35 Lecture 31: Reacting Multi-phase Systems 36 Lecture 32: Case Study - Reacting, Multi-component, Multi-phase Systems 37 Supplemental Video: Ternary Phase Diagram and Ouzo Demo 38 Supplemental Video: Ouzo Demo